Abstract: A bus slave device and an interrupt request determination method thereof are provided. The bus slave device sets interrupt request groups and interrupt request numbers to slave devices, respectively. A master device receives an interrupt request through an alarm pin, and each of the slave devices send interrupt request through the alarm pin, and an alarm detection module detects whether the alarm pin is at a low level. A selecting module selects an interrupt mode which is one of a level mode and a pulse mode. An interrupt request module sends or terminates the interrupt request. The master device configures the interrupt request group and the interrupt request number corresponding to the slave devices through the control module to generate a master device receiving signal, and transmits the master device receiving signal to the master device through the data pin and the clock pin.

Abstract: A charge control system includes a memory and a processing unit. The memory integrates a power consumption of the electronic device, a sleep signal, a boot signal, a hibernate signal or a shutdown signal received by the electronic device, a charge status of the charger, and a remaining power of the battery at the previous time point, as previous usage information. The processing unit creates an estimation model based on the previous usage information and an algorithm, to estimate an estimated power consumption of the electronic device, the estimated power of the battery and the charge probability of the charger corresponding to the current time point, the processing unit determines a target voltage based on the estimated power consumption, the estimated power, and the charge probability, the processing unit controls the charger to charge the battery, based on a current voltage and a target voltage.

Abstract: Embodiments of the disclosure provide a method for updating a network topology and a control node. The method includes: establishing a tree network topology including multiple network nodes; obtaining a signal scanning results of each of the network nodes; and updating the tree network topology based on a signal scan result of the each of the network nodes.

Abstract: Embodiments of the disclosure provide a multi-hop wireless network system including multiple network nodes, a method for maintaining a tree network topology, and a first member node. The multi-hop wireless network system includes the first member node. The first member node is connected to a control node of the network nodes through a first relay node in the tree topology network formed by the network nodes, and operates as a second relay node. The first member node is configured to: in response to determining that connection between the first relay node and the first member node is disconnected, stop operating as the second relay node.

Abstract: A bus slave device and an interrupt request determination method thereof are provided. The bus slave device sets interrupt request groups and interrupt request numbers to slave devices, respectively. A master device receives an interrupt request through an alarm pin, and each of the slave devices send interrupt request through the alarm pin, and an alarm detection module detects whether the alarm pin is at a low level. A selecting module selects an interrupt mode which is one of a level mode and a pulse mode. An interrupt request module sends or terminates the interrupt request. The master device configures the interrupt request group and the interrupt request number corresponding to the slave devices through the control module to generate a master device receiving signal, and transmits the master device receiving signal to the master device through the data pin and the clock pin.

Abstract: An anti-virus chip includes a first connection terminal, a second connection terminal, a detection unit and a processing unit. The first connection terminal and the second connection terminal are respectively coupled to a connection port and a system circuit of an electronic device. The detection unit detects whether the connection port is connected to an external device via the first connection terminal. When the detection unit detects that the connection port is connected to the external device, the processing unit performs a virus-scan program on the external device to determine whether a virus exists in the external device. When determining that a virus does not exist in the external device, the processing unit establishes a first transmission path between the first connection terminal and the second connection terminal. When determining that a virus exists in the external device, the processing unit does not establish the first transmission path.

Abstract: An all-in-one computer includes a display, a Universal Serial Bus (USB) Type-C port, a plurality of USB Type-A ports, a USB hub, a demultiplexer, and a Power Delivery (PD) controller. The USB hub is coupled to the plurality of USB Type-A ports. The demultiplexer is coupled between the display, the USB Type-C port, and the USB hub. The PD controller is to control the demultiplexer and the USB hub to pass a display signal input to the USB Type-C port to the display and pass signals input to the USB hub from the plurality of USB Type-A ports to the USB Type-C port with a computing device coupled to the USB Type-C port.

Abstract: An anti-virus chip includes a first connection terminal, a second connection terminal, a detection unit and a processing unit. The first connection terminal and the second connection terminal are respectively coupled to a connection port and a system circuit of an electronic device. The detection unit detects whether the connection port is connected to an external device via the first connection terminal. When the detection unit detects that the connection port is connected to the external device, the processing unit performs a virus-scan program on the external device to determine whether a virus exists in the external device. When determining that a virus does not exist in the external device, the processing unit establishes a first transmission path between the first connection terminal and the second connection terminal. When determining that a virus exists in the external device, the processing unit does not establish the first transmission path.

Abstract: An anti-virus chip includes a first connection terminal, a second connection terminal, a detection unit and a processing unit. The first connection terminal and the second connection terminal are respectively coupled to a connection port and a system circuit of an electronic device. The detection unit detects whether the connection port is connected to an external device via the first connection terminal. When the detection unit detects that the connection port is connected to the external device, the processing unit performs a virus-scan program on the external device to determine whether a virus exists in the external device. When determining that a virus does not exist in the external device, the processing unit establishes a first transmission path between the first connection terminal and the second connection terminal. When determining that a virus exists in the external device, the processing unit does not establish the first transmission path.

Abstract: An all-in-one computer includes a display, a Universal Serial Bus (USB) Type-C port, a plurality of USB Type-A ports, a USB hub, a demultiplexer, and a Power Delivery (PD) controller. The USB hub is coupled to the plurality of USB Type-A ports. The demultiplexer is coupled between the display, the USB Type-C port, and the USB hub. The PD controller is to control the demultiplexer and the USB hub to pass a display signal input to the USB Type-C port to the display and pass signals input to the USB hub from the plurality of USB Type-A ports to the USB Type-C port with a computing device coupled to the USB Type-C port.

Abstract: A charge control system includes a memory and a processing unit. The memory integrates a power consumption of the electronic device, a sleep signal, a boot signal, a hibernate signal or a shutdown signal received by the electronic device, a charge status of the charger, and a remaining power of the battery at the previous time point, as previous usage information. The processing unit creates an estimation model based on the previous usage information and an algorithm, to estimate an estimated power consumption of the electronic device, the estimated power of the battery and the charge probability of the charger corresponding to the current time point, the processing unit determines a target voltage based on the estimated power consumption, the estimated power, and the charge probability, the processing unit controls the charger to charge the battery, based on a current voltage and a target voltage.

Abstract: A host system and a method for unlocking an electronic lock are provided. The host system includes a chassis, an electronic lock and a system circuit board. The chassis has a side door. The electronic lock is arranged on the side door for locking the side door on the chassis. The system circuit board is configured in the chassis, coupled to the electronic lock, and the system board has a plurality of universal serial bus ports. When the system board is not activated and a trigger voltage is received, the system circuit board detects an input sequence in which the USB ports are being inserted, and when the input sequence is equal to a predetermined sequence, the system circuit board outputs an unlock signal to the electronic lock so as to unlock the electronic lock device.

Abstract: A serial bidirectional communication method is provided. The method includes: performing a downlink transmission and performing an uplink transmission. The downlink transmission includes: receiving first downlink data through a first transmission terminal, wherein the first downlink data comprises at least one control command, and the at least one control command is cascaded and configured to control at least one electronic device; removing one, corresponding to a local device, of the at least one control command from the first downlink data to form second downlink data, wherein the local device is one of the at least one electronic device; and when there is a control command remaining in the second downlink, outputting the second downlink data through a second transmission terminal. The uplink transmission includes outputting first uplink data through the first transmission terminal. The first uplink data includes local information generated by the local device.

Abstract: An anti-virus chip includes a first connection terminal, a second connection terminal, a detection unit and a processing unit. The first connection terminal and the second connection terminal are respectively coupled to a connection port and a system circuit of an electronic device. The detection unit detects whether the connection port is connected to an external device via the first connection terminal. When the detection unit detects that the connection port is connected to the external device, the processing unit performs a virus-scan program on the external device to determine whether a virus exists in the external device. When determining that a virus does not exist in the external device, the processing unit establishes a first transmission path between the first connection terminal and the second connection terminal. When determining that a virus exists in the external device, the processing unit does not establish the first transmission path.

Abstract: A display panel includes a first substrate, a second substrate, a sealant, a signal line, and a turning line. The signal line includes first to nth signal lines substantially extending along a first direction. The turning line includes first to mth turning lines substantially extending along a second direction. A common boundary between the turning line and the signal line is parallel with a third direction. A first auxiliary region is defined by the first direction, a fourth direction perpendicular to the first direction, and the third direction. One side of the first auxiliary region overlaps the common boundary. Two vertices of the first auxiliary region overlap the first signal line and the other vertex overlaps the nth signal line. A vertical projection area of the signal line in the first auxiliary region is A1, an area of the first auxiliary region is B1, and 60%?A1/B1?100%.

Abstract: A serial bidirectional communication method is provided. The method includes: performing a downlink transmission and performing an uplink transmission. The downlink transmission includes: receiving first downlink data through a first transmission terminal, wherein the first downlink data comprises at least one control command, and the at least one control command is cascaded and configured to control at least one electronic device; removing one, corresponding to a local device, of the at least one control command from the first downlink data to form second downlink data, wherein the local device is one of the at least one electronic device; and when there is a control command remaining in the second downlink, outputting the second downlink data through a second transmission terminal. The uplink transmission includes outputting first uplink data through the first transmission terminal. The first uplink data includes local information generated by the local device.

Abstract: A display panel includes a first substrate, a second substrate, a sealant, a signal line, and a turning line. The signal line includes first to nth signal lines substantially extending along a first direction. The turning line includes first to mth turning lines substantially extending along a second direction. A common boundary between the turning line and the signal line is parallel with a third direction. A first auxiliary region is defined by the first direction, a fourth direction perpendicular to the first direction, and the third direction. One side of the first auxiliary region overlaps the common boundary. Two vertices of the first auxiliary region overlap the first signal line and the other vertex overlaps the nth signal line. A vertical projection area of the signal line in the first auxiliary region is A1, an area of the first auxiliary region is B1, and 60%?A1/B1?100%.

Abstract: A bus system is provided. The bus system includes a master device, a bus and a plurality of slave devices. The slave devices and the master device are electrically connected through the bus. The master device communicates with the slave devices by using a one-to-one communication mechanism. The slave devices communicate with the master device by using an arbitration mechanism in which one of the slave devices is selected to communicate with the master device.

Abstract: A touch panel including a touch region, a border region, a signal transmission device, and a light transmission pattern is provided. The border region is disposed on at least one side of the touch region. The signal transmission device is disposed in the border region. The light transmission pattern is disposed in the border region. The light transmission pattern partially overlaps the signal transmission device along a vertical projection direction. The signal transmission device includes at least one transparent conducting line. The transparent conducting line overlaps partial the light transmission pattern in the vertical projection direction.

Abstract: A host system and a method for unlocking an electronic lock are provided. The host system includes a chassis, an electronic lock and a system circuit board. The chassis has a side door. The electronic lock is arranged on the side door for locking the side door on the chassis. The system circuit board is configured in the chassis, coupled to the electronic lock, and the system board has a plurality of universal serial bus ports. When the system board is not activated and a trigger voltage is received, the system circuit board detects an input sequence in which the USB ports are being inserted, and when the input sequence is equal to a predetermined sequence, the system circuit board outputs an unlock signal to the electronic lock so as to unlock the electronic lock device.